Filtration plays a critical role in carbon capture, utilization, and storage (CCUS) by enhancing CO2 purity, protecting equipment, and improving operational efficiency across all stages—from capture to compression and injection.
The global push for net-zero carbon emissions is intensifying and with it, the need for robust carbon capture, utilization and storage (CCUS) solutions.
With rising global carbon dioxide (CO2) emissions and worldwide commitment to avoid environmental impacts, the contribution of Carbon Capture and Storage (CCS) technologies is crucial. Controlling impurities in CCS pipelines is key to this effort.
As the global demand for energy grows, so too does the need to transition toward sustainable energy sources. For many process manufacturers, carbon capture, utilization and storage (CCUS) is a central part of their efforts to reduce emissions of one of the most prevalent greenhouse gases (GHGs), carbon dioxide (CO2).
While the use of renewables, improved energy efficiency and electric vehicles are areas of focus, oil and natural gas will continue to be in demand for petrochemicals and fueling transportation by land, sea and air.
(P&GJ) — Design and construction of CO2 pipelines are similar to natural gas transmission pipelines. However, there are differences like: thermodynamic modeling, blow down modeling, specifying the maximum water content, pipeline fracture propagation control, use of elastomer materials and performing a quantitative risk assessment, mainly related to release modeling and defining the allowable exposure limits. These factors require special attention for CO2 pipelines, when compared with natural gas.
(P&GJ) — To meet the growing energy demands in the Rockies and Western U.S., Spire Storage is expanding its facilities in Wyoming, with partial availability of additional natural gas storage capacity becoming available in 2024.
(P&GJ) — With growing demand and government incentives to develop more carbon capture and sequestration (CCS) capacity, some of the biggest U.S. pipeline projects now on the drawing board are designed to transport CO2 from source to storage.
The industry-accepted lost and unaccounted for (LAUF) natural gas storage, processing and transportation averages 0.40% of throughput. LAUF is driven by myriad factors, including pneumatic device integrity and venting, but it is dominated by persistent measurement errors.
In early November, the consulting firm FTI Consulting Inc. conducted a workshop on underground natural gas storage as part of its contract with the California Public Utilities Commission (CPUC).
Proper storage and maintenance are important to ensure the optimal performance and condition of urethane pigs.
The arrival of natural gas in Europe in the 1960s marked the advent of large regional gas storage solutions designed to meet multiple needs. Today, gas storage systems balance and stabilize flows of gas to meet demand, smooth price fluctuations and help ensure energy security.
Calgary-based Gibson Energy Inc. said it has approved the construction of one million barrels of new tankage at its Hardisty Terminal.
Calgary-based Gibson Energy approved the construction of 1 million barrels of new tankage at its Hardisty Terminal.
The Department of Energy will award $24 million in grants for the development of tools, methods and technologies to cost-effectively enhance the safety and efficiency of the nation’s natural gas production, gathering, storage, and transmission infrastructure. Grants will be as much as $3 million but no lower than $1 million.
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